Ultraselective Macrocycle Membranes for Pharmaceutical Ingredients Separation in Organic Solvents

Separations are core processes in the chemical and pharmaceutical industries. Several steps of fractionation and purification of multicomponent mixtures are required. Membrane technology can operate at fair temperatures, saving energy and processing sensitive compounds. However, breakthroughs require high stability and selectivity beyond those available today. Here, we propose membranes constituted by fully crosslinked crown ethers using interfacial polymerization. The 24 nm-thick nanofilms on robust porous supports exhibit up to 90% higher selectivity than commercially available membranes, with a 90% increase in solvent permeance. The membranes are tested with a complex mixture of structurally diverse solutes containing active pharmaceutical ingredients. The membranes are effective for the total retention and concentration of active pharmaceutical ingredients with molecular weights around 800 g mol<sup>-1</sup>. The ability to distinguish between smaller molecules in the range between 100 and 370 g mol<sup>-1</sup> is confirmed with high separation factors, which could provide a significant advance for the pharmaceutical industry.

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Publication Details

Journal
Nature Communications
Published
2024-08-21
DOI
https://doi.org/10.1038/s41467-024-51548-7
Citations
46
Primary Topic
Membrane Separation Technologies
Type
article
Field-Weighted Citation Impact
9.27

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article

Ultraselective Macrocycle Membranes for Pharmaceutical Ingredients Separation in Organic Solvents

Gergő Ignácz, Maria Di Vincenzo, Banan Alhazmi, Suzana P. Nunes et al.
46 citations
Nature Communications
Membrane Separation Technologies
9.27
article

Ultraselective Macrocycle Membranes for Pharmaceutical Ingredients Separation in Organic Solvents

Gergő Ignácz, Maria Di Vincenzo, Banan Alhazmi, Suzana P. Nunes, Mohamed Nejib Hedhili, György Székely
article en
46 citations

Abstract

Separations are core processes in the chemical and pharmaceutical industries. Several steps of fractionation and purification of multicomponent mixtures are required. Membrane technology can operate at fair temperatures, saving energy and processing sensitive compounds. However, breakthroughs require high stability and selectivity beyond those available today. Here, we propose membranes constituted by fully crosslinked crown ethers using interfacial polymerization. The 24 nm-thick nanofilms on robust porous supports exhibit up to 90% higher selectivity than commercially available membranes, with a 90% increase in solvent permeance. The membranes are tested with a complex mixture of structurally diverse solutes containing active pharmaceutical ingredients. The membranes are effective for the total retention and concentration of active pharmaceutical ingredients with molecular weights around 800 g mol<sup>-1</sup>. The ability to distinguish between smaller molecules in the range between 100 and 370 g mol<sup>-1</sup> is confirmed with high separation factors, which could provide a significant advance for the pharmaceutical industry.

Nature CommunicationsVol. 15(1)
King Abdullah University of Science and Technology (SA)
King Abdullah University of Science and Technology
Openalex Percentile: Top 1%
Membrane Separation Technologies
9.27
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Ultraselective Macrocycle Membranes for Pharmaceutical Ingredients Separation in Organic Solvents — Gergő Ignácz, Maria Di Vincenzo, et al. · Nature Communications (2024) | TGRS Research Map | TGRS